LiBLHaneklausN. The role of renewable energy, fossil fuel consumption, urbanization and economic growth on CO2 emissions in China. Energy Rep2021; 7: 783–791.
LiXTYuCWF. China’s building energy efficiency targets: challenges or opportunities?Indoor Built Environ2012; 21(5): 609–613.
5.
JiangY. China building energy consumption annual report. Beijing: China Architecture & Building Press, 2022. (In Chinese).
6.
ZhuYFTaylorDWangZL. The role of renewable energy in reducing residential fossil energy-related CO2 emissions: Evidence from rural China. J Clean Prod2022; 266(15): 132891.
7.
KimJTYuCWF. Sustainable development and requirements for energy efficiency in buildings - the Korean perspectives. Indoor Built Environ2018; 27(6): 734–751.
8.
ZhangZXZhouYGZhaoNLiHTohniyazBMperejekumanaPHongQWuRCLiGSultanMZayanAMCaoJXAhmadRDongR. Clean heating during winter season in Northern China: a review. Renew Sustain Energ Rev2021; 149: 111339.
9.
ZhangYLLiWQWuF. Does energy transition improve air quality? Evidence derived from China’s Winter Clean Heating Pilot (WCHP) project. Energy2020; 206: 118130.
10.
LiBJSunYJZhengWDZhangHJuraszJDuTWangY. Evaluating the role of clean heating technologies in rural areas in improving the air quality. Appl Energ2021; 289: 116693.
11.
LuoXLLeiSLYuCWGuZL. Thermal performance of a novel heating bed system integrated with a stack effect tunnel. Indoor Built Environ2020; 29: 1316–1328.
12.
SuJWLiJLuoXLYuCWGuZL. Experimental evaluation of a capillary heating bed driven by an air source heat pump and solar energy. Indoor Built Environ2019; 29: 1399–1411.
13.
LiXTWuWYuCWF. Energy demand for hot water supply for indoor environments: problems and perspectives. Indoor Built Environ2015; 24(1): 5–10.
14.
WangCGGongGCSuHYuCW. Efficacy of integrated photovoltaics-air source heat pump systems for application in central-south China. Renew Sust Energ Rev2015; 49: 1190–1197.
15.
KnudsenBRRohdeDKaukoH. Thermal energy storage sizing for industrial waste-heat utilization in district heating: A model predictive control approach. Energy2021; 234: 121200.
16.
LiHRLongESZhangYYangHY. Operation strategy of cross-season solar heat storage heating system in an alpine high-altitude area. Indoor Built Environ2020; 29: 1249–1259.
17.
MeisterCBeausoleil-MorrisonI. Experimental and modelled performance of a building-scale thermal system with seasonal storage water tank. Sol Energ2021; 222: 145–159.
18.
HanJXMuSH. Application analysis of typical thermal storage technology in heating field. Energy and Energy Conservation2019; 163(4): 54–57. (In Chinese).
19.
CisekPTalerD. Numerical and experimental study of a solid matrix electric thermal storage unit dedicated to environmentally friendly residential heating system. Energy Build2016; 130: 747–760.
ZhaoZHArifMTOoAMT. Solar thermal energy with molten-salt storage for residential heating application. Energy Procedia2017; 110: 243–249.
22.
YangXHWangXYLiuZLuoXLYanJY. Effect of fin number on the melting phase change in a horizontal finned shell-and-tube thermal energy storage unit. Sol Energ Mat Sol C2021; 236: 111527.
23.
WangXSunXYYuCWF. Building envelope with variable thermal performance: opportunities and challenges. Indoor Built Environ2018; 27(6): 729–733.
24.
ZhouYKYuCW. The year-round thermal performance of a new ventilated Trombe wall integrated with phase change materials in the hot summer and cold winter region of China. Indoor Built Environ2019; 28(2): 195–216.
25.
ZhouYKYuCWFZhangGQ. Study of heat-transfer mechanism of wallboards containing active phase change material and parameter optimization with ventilation. Appl Therm Eng2018; 144: 1091–1108.
26.
KouFCShiSHZhuNSongYAZouYMoJHWangX. Improving the indoor thermal environment in lightweight buildings in winter by passive solar heating: An experimental study. Indoor Built Environ2022; 31: 2257–2273.
27.
YangXYLiSJZhaoJGWangXMHuangHYWangYZ. Metal-organic framework-derived graphene porous carbon matrix based lithium hydroxide chemical heat storage composite materials for residential heating. Energy Build2022; 254(1): 111616.
28.
CaoDLHongGLeAT. Applying chemical heat storage to saving exhaust gas energy in diesel engines: principle, design and experiment. J Energ Storage2020; 28: 101311.